Advertisement

Breeding a better vector

DNA shuffling (also called molecular breeding) generates variation by random fragmentation of a cloned gene followed by reassembly of the fragments in a self-priming polymerase reaction. The result is a recombination of overlapping fragments that have different mutations or come from different, naturally occurring homologous genes. In the August Nature Genetics Soong et al apply this technique to a pool of six different murine leukemia virus envelope sequences to derive a new virus that can,

By | August 7, 2000

DNA shuffling (also called molecular breeding) generates variation by random fragmentation of a cloned gene followed by reassembly of the fragments in a self-priming polymerase reaction. The result is a recombination of overlapping fragments that have different mutations or come from different, naturally occurring homologous genes. In the August Nature Genetics Soong et al apply this technique to a pool of six different murine leukemia virus envelope sequences to derive a new virus that can, unlike its parents, infect Chinese Hamster Ovary (CHOK1) cells (Nat. Gen. 2000, 25:436-439). Similar selections on clinically relevant cell types may yield improved vectors for gene therapy.

Advertisement

Follow The Scientist

icon-facebook icon-linkedin icon-twitter icon-vimeo icon-youtube
Advertisement
The Scientist
The Scientist

Stay Connected with The Scientist

  • icon-facebook The Scientist Magazine
  • icon-facebook The Scientist Careers
  • icon-facebook Neuroscience Research Techniques
  • icon-facebook Genetic Research Techniques
  • icon-facebook Cell Culture Techniques
  • icon-facebook Microbiology and Immunology
  • icon-facebook Cancer Research and Technology
  • icon-facebook Stem Cell and Regenerative Science
Advertisement
LI-COR
LI-COR
Advertisement
The Scientist
The Scientist
Life Technologies